Posts Tagged ‘cortex m4’

Microchip SAM D5x and SAM E5x ARM Cortex-M4 Micro-Controllers Launched with Optional Ethernet and CAN Bus

August 2nd, 2017 No comments

Microchip has just introduced two new families of micro-controllers based on ARM Cortex-M4F with SAM D5x and SAM E5x series sporting up to 1 MB of dual-panel flash and 256 KB of SRAM both with ECC support. Both families also support QSPI flash with XIP (eXecute In Place) support, features an SD card controller and a capacitive touch controller, with SAM E5x family also adding support for two CAN-FD ports and Ethernet.

Microchip SAM A5x/E5x key features and specifications:

  • MCU Core – ARM Cortex-M4F core running at 120 MHz with single precision Floating Point Unit (FPU)
  • Memory – Internal memory architecture with user configurable Tightly Coupled Memory, System memory, Memory Protection Unit and 4KB Combined I-cache and D-cache; up to 256KB ECC SRAM, up to 1MB ECC flash
  • Storage I/F – Quad Serial Peripheral Interface(QSPI) with Execute in Place (XIP) Support
  • Peripherals
    • Up to 2x Secure Digital Host Controller (SDHC)
    • Peripheral Touch Controller (PTC) supporting up to 256 channels of capacitive touch
    • Full speed USB with embedded Host/device
    • Dual 1Msps 12-bit ADCs up to 32 channels with offset  and gain error compensation.
    • Dual 1Msps, 12-bit DAC and analog comparator
    • Up to 8x Serial communication (SERCOM) ports configurable as UART/USART, ISO 7816, SPI or I2C
    • SAM E5x series only:
      • 10/100M Ethernet MAC with IEEE1588 (E53/E54)
      • Dual Bosch CAN-FD 1.0 Controller (E51/E54)
  • Security – Symmetric (AES) and Asymmetric(ECC) Encryption, Public Key Exchange Support (PUKCC), TRNG and SHA- based memory integrity checker
  • Power Modes – Supports 5 Low power modes with 65µA/MHz Active Power Performance
  • Packages – 48 to 128-pin package options
  • Temperature Range – -40°C to 85°C

Some SAMD5x SKUs are pin-to-pin compatible ARM Cortex M0+ based SAMD2X MCU, so you can easily upgrade existing design with a more powerful MCU core. There only one main “sub-family” with SAMD5x: SAMD51, but SAME5x has three sub-families depending on Ethernet and CAN options:

  • SAME51 – 2x CAN-FD
  • SAME53 – Ethernet MAC
  • SAME54 – 2x CAN-FD and Ethernet MAC

Click to Enlarge

Microchip has used the higher end version of SAME54 processor in SAM E54 Xplained Pro Evaluation Kit in order to help customer kick-start development as soon as possible. Key features for ATSAME54-XPRO board:

  • MCU – Microchip ATSAME54P20A microcontroller
  • Storage – 256 Mbit QSPI Flash, SD/SDIO card connector, AT24MAC402 serial EEPROM with EUI-48 MAC address
  • Connectivity – 10/100M Ethernet (RJ45) via KSZ8091RNA PHY
  • USB – micro USB interface, host, and device
  • Expansion
    • Parallel Capture Controller header (ArduCAM compatible)
    • CAN connector
    • Three Xplained Pro extension headers
  • Debugging
    • 10-pin Cortex Debug Connector with SWD
    • 20-pin Cortex Debug + ETM Connector with SWD and four bit trace
    • Embedded Debugger
    • Embedded current measurement circuitry (XAM)
  • Security – Microchip ATECC508 CryptoAuthentication device
  • Misc – 1x reset button, 1x programmable button, 1x QTouch PTC button, 1x yellow user LED, backup super capacitor, 32.768 kHz & 12 MHz crystals
  • Power Supply – 5V via micro USB port

The board and all Atmel SAMD5x / E5x processor are supported by Atmel Studio 7 IDE, and Atmel START online tool to configure peripherals and software.

Microchip SAM D5x and SAM E5x are in available in volume production, with pricing starting at $2.43 for 10K orders. SAM E54 Xplained Pro Evaluation Kit is available for $84.99. Adafruit is also working on – likely cheaper –  SAMD51 based Feather M4 and Metro M4 boards that will support Arduino (See github for current code).

More details can be found on SAM D and SAM E MCU product pages.

Qorvo GP695 “Smart Home” SoC Integrates 802.15.4, Zigbee 3.0, Thread, and Bluetooth LE

January 4th, 2017 No comments

GreenPeak Technologies ultra-low power, short range RF communication technology company was acquired by Qorvo last year, and Qorvo has recently announced a GP695 system on chip (SoC) for smart home devices part of GreenPeak’s previous family of devices, and supporting multiple short range RF protocols.

qorvo-gp695GP695 key features:

  • MCU Core – ARM Cortex M4
  • Connectivity
    • IEEE 802.15.4
    • ZigBee 3.0
    • Thread
    • Bluetooth Low Energy (BLE)
    • Qorvo Wi-Fi interference mitigation technology

GP695 has been designed to be used in device such as a door locks, smart HVAC, smart security systems, connected video doorbells and intercoms, lightbulbs, smoke alarms, and leak detectors, and complements GP712 multi-protocol SoC designed for smart home gateways.

Qorvo will feature live demonstrations of its smart home and IoT solutions at its booth during CES 2017, at Sands Expo, Halls A-D Booth #42114. There’s very limited public information, and no product page could be found in their website.

Ambiq Micro Introduces Ultra-Low Power Apollo 2 Cortex-M4F MCU Consuming Less than 10 μA/MHz

December 18th, 2016 1 comment

Last year Ambiq Micro unveiled their Apollo Cortex-M4F MCU with Cortex M0+ energy efficiency thanks to operation in sub-threshold voltage (< 0.5 V), and the MCU is said found in Matrix Powerwatch, a fitness tracker powered by body heat that you never need to charge. The company has recently announced a new version of the micro-controller with Apollo 2 MCU with better maximum performance thanks to a higher maximum clock speed (48 MHz vs 24 MHz), and higher efficiency (10 μA/MHz vs 30 μA/MHz @ 3.3V).


Apollo 2 MCU key features and specifications:

  • Ultra-low supply current
    • <10 μA/MHz executing from flash at 3.3 V
    • <10 μA/MHz executing from RAM at 3.3 V
  • ARM Cortex-M4 Processor up to 48 MHz with FPU, MMU, wake-up interrupt controller with 32 interrupts
  • Ultra-low power memory
    • Up to 1 MB of flash memory for code/data
    • Up to 256 KB of low leakage RAM for code/data
    • 16kB 1 or 2-way Associative Cache
  • Ultra-low power interface for off-chip sensors
    • 14 bit, 15-channel, up to 1.2 MS/s ADC
    • Voltage comparator
    • Temperature sensor with +/-2ºC accuracy
  • Serial peripherals – 6x I2C/SPI master,1x I2C/SPI slave,2x UART, PDM for mono and stereo audio microphone
  • Clock sources
    • 32.768 kHz XTAL oscillator
    • Low frequency RC oscillator – 1.024 kHz
    • High frequency RC oscillator – 48 MHz
    • RTC based on Ambiq’s AM08X5/18X5 families
  • Wide operating range – 1.8-3.6 V, –40 to 85°C
  • Package –  2.5 x 2.5 mm 49-pin CSP with 34 GPIO; 4.5 x 4.5 mm 64-pin BGA with 50 GPIO

The MCU promises weeks, months, and years of battery life thanks to Ambiq Micro’s patented Subthreshold Power Optimized Technology (SPOT) Platform. Apollo 2 will be suitable for battery operated devices, or even batteryless devices leveraging energy harvesting such as wireless sensors, activity and fitness trackers, consumer medical devices, smart watches, and smart home/IoT devices.

Documentation and devkits are available but you’d need to contact the company to learn more. Ambiq Micro’s Apollo 2 is currently sampling to some partners, and will be sampling more broadly in the coming months. A few more details may be found on Ambiq Micro Apollo 2’s product page.

NXP LPC Microcontrollers Roadmap for 2017 – LPC800 and LPC54000 Series

December 17th, 2016 No comments

With the acquisition of Freescale, NXP now has both Kinetis and LPC ARM Cortex M micro-controller families. The company has kept selling both so far, but it’s unclear whether they’ll keep developing new Kinetis MCU family in the future. There’s no such doubt about LPC family with the company having published a 2017 roadmap for ARM Cortex M0+ based LPC 800 series, and ARM Cortex M4 based LPC54000 series.

Click to Enlarge

Click to Enlarge

LPC800 series MCUs are promoted as 8-bit MCU alternatives, and three new models are expected next year:

  • LPC84x ARM Cortex M0+ @ 30 MHz with 64KB flash, 8 to 16KB RAM available in QFN and LQFP packages.
  • LPC802 ARM Cortex M0+ @ 15 MHz with 16KB flash, 2KB RAM available in TSSOP packages
  • LPC804 ARM Cortex M0+ @ 15 MHz with 32KB flash, 4KB RAM available in QFN or TSSOP packages

There will be new models of the more powerful LPC54000 series:

  • LPC546xx ARM Cortex-M4 @ 180 MHz with 256 to 512KB flash, 16KB EEPROM, 136 to 200KB RAM available in LQFP and TBGA packages
  • LPC546xx “Flashless” ARM Cortex-M4 @ 180 MHz with 360 KB RAM available in LQFP and TBGA packages


NXP will also soon launch LPC54608 development board (OM13092) to let people evaluate the new LPC546xx MCUs.

Thanks to Nanik for the tip.

SiLabs Wireless Gecko SoCs Support Bluetooth 4.2, Zigbee, Thread, and 2.4GHz Proprietary Protocols

February 25th, 2016 3 comments

Silicon Labs has introduced three new Wireless SoC families with Blue Gecko for Bluetooth Smart, Mighty Gecko for Thread & Zigbee, and Flex Gecko for proprietary 2.4 GHz protocols. All three families provides up to 19.5 dBm output power & hardware cryptography, and are pin-to-pin and software compatible.

SiLabs Might Gecko SoC Block Diagram

SiLabs Might Gecko SoC Block Diagram

SiLabs Wireless Gecko SoC highlights:

  • MCU Core – ARM Cortex-M4 @ 40 MHz with FPU, up to 256 KB flash, and up to 32KB SRAM. Mighty Gecko also adds a DSP
  • Peripherals
    • AES256/128 Hardware Crypto Accelerator
    • ADC (12-bit, 1 Msps, 286 µA)
    • Current DAC (4-bit, Current Source or Sink)
    • 2x Analog Comparator
    • Low Energy UART
    • 2x USART (UART, SPI, IrDA, I2S)
    • I2C (Address recognition down to EM3)
    • Timers : RTCC, LE Timer & Pulse Counter
    • 12-channel Peripheral Reflex System
    • Up to 31 GPIO
  • EFR32BG Blue Gecko Family
    • Bluetooth Smart (Bluetooth Low Energy or “BLE”) 4.2 specification as well as proprietary wireless protocols
    • Supported by Silicon Labs’ Bluetooth Smart software stack and BGScript scripting language
    • Packages – QFN48 (7 mm x 7 mm), QFN32 (5 mm x 5 mm), WLCSP (3.3 mm x 3.2 mm)
  • EFR32MG Mighty Gecko Family
    • Multiprotocol SoC solution for low-power 802.15.4 mesh networking
    • Supports Silicon Labs’ ZigBee PRO software stack for ZigBee applications and Silicon Labs’ pre-certified Thread protocol stack for IP-based mesh networks
    • Gives developers the flexibility to select the optimal protocol (ZigBee, Thread, Bluetooth Smart or proprietary) for their IoT applications
    • Packages – QFN48 (7 mm x 7 mm), QFN32 (5 mm x 5 mm)
  • EFR32FG Flex Gecko Family
    • Supports popular proprietary protocol options for diverse applications including M2M links, building automation, security and electronic shelf labels.
    • Features Silicon Labs’ radio abstraction interface layer (RAIL) software easing the complexity of proprietary wireless development by simplifying radio configuration
    • Packages – QFN48 (7 mm x 7 mm), QFN32 (5 mm x 5 mm)

The Wireless Gecko SoC portfolio is supported by Simplicity Studio development platform including AppBuilder, to configure wireless applications, Desktop Network Analyzer for debugging, and Energy Profiler for profiling energy consumption. The IDE works on Windows, Linux, and Mac OS X.

The company also provided the table below to help customer choose the best 2.4GHz protocol for their application.

Bluetooth Smart ZigBee Thread Proprietary
Network Topology P2P, Star Mesh Mesh P2P, Star, Mesh
Network Size 2 ~ 10 150 ~ 250 150 ~ 250 Custom
Line-of-Sight Range 375 m 585 m 585 m 585 m (2.4 GHz)
Data Rate 1 Mbps 250 kbps 250 kbps Custom
IP Support Yes No Yes No
Low Energy Yes Yes Yes Yes
Application Examples Wearables
Home Automation
Home Automation
Smart Metering
Industrial Automation
Home Automation
Smart Metering
Industrial Automation
Home Automation
Electronic Shelf Labels
Asset Tracking

Mighty_Gecko_DevkitThree development starter kits are available for the Blue, Mighty and Flex Gecko SoCs:

  • $99 EFR32 Blue Gecko Bluetooth Smart SoC Wireless Starter Kit (SLWSTK6020A) with mainboard, EFR32BG 2.4 GHz radio board (+10.5 dBm), 1x USB A to USB mini-B cable, 1x CR2032 battery, and a  EFR32BG Get Started Card
  • $229 Flex Gecko Starter Kit (SLWSTK6066A) with 2x Wireless starter kit mainboards, 2x EFR32FG 2.4 GHz radio boards (+19.5 dBm), 2x USB A to USB mini-B cables, 2x CR2032 batteries, 2x AA Battery holders, and a EFR32FG Get Started Card
  • $499 EFR32 Mighty Gecko Starter Kit (SLWSTK6000A) with 3x Wireless starter kit mainboards, 3 x EFR32MG 2.4 GHz 19.5 dBm radio board, 3 x EFR32MG 2.4 GHz 13 dBm radio boards, an AA Battery board (supports running +19.5 from battery), and an integrated debug and packet trace

Wireless Gecko engineering samples are available now in QFN32 and QFN48 packages, with mass production scheduled for Q2 2016. Pricing starts at $2.11 per unit for 100,000-unit quantities for Mighty Gecko SoCs, $2.06 for Flex Gecko SoCs, and $0.99 for Blue Gecko SoCs. More details can be found on SiLabs Wireless Gecko product page.

Via EETimes

Texas Instruments MSP432 LaunchPad Development Board Sells for $4.32 (Promo)

January 11th, 2016 7 comments

Texas Instruments has started the year by offering a deal on their 32-bit MSP432 LaunchPad Development Kit, dropping the cost from $12.99 to $4.32 for a limited time with coupon code [email protected]


MSP432 Launchpad’s key features:

  • MCU – Texas Instruments MSP432P401R ARM Cortex M4F MCU @ 48 MHz with FPU and DSP, 256KB flash, 64KB RAM
  • Expansion – 40 pin BoosterPack Connector, and support for 20-pin BoosterPacks
  • Misc – 2 buttons and 2 LEDs for user interaction
  • Debugging – Back-channel UART via USB to PC, Onboard XDS-110ET emulator featuring EnergyTrace+ Technology
  • Power – Micro USB connector

The kit includes the board, micro USB cable and a quick start guide. There’s plenty of technical documentation for the board, although for some unknown reasons,  I can’t download any PDF documents from TI website tonight.

MSP432 LaunchPad Discount

MSP432 LaunchPad Discount (Click to Enlarge)

The coupon is still working, but free shipping on TI eStore seems to be a thing of the past, as the total price adds $7 for shipping and handling to the US, and it goes up to $19 to countries in Asia.

Thanks to Nanik for the tip.

Texas Instruments Introduces MSP432 ARM Cortex-M4F MCU Family

March 25th, 2015 No comments

Texas Instruments has just launched a successor for its 16-bit MSP430 MCU family with MSP432 MCU series featuring a 32-bit ARM Cortex-M4F core, a DSP, up to 256 KB flash, up to 64 KB SRAM, and according to the company ” delivering a ULPBench score of 167.4 outperforming all other Cortex-M3 and -M4F MCUs on the market”. The new MCU family targets  consumer & portable electronics, building & factory automation & control, smart grid & energy,  healthcare & fitness, and wearables applications.

MSP432_Block_DiagramKey features listed for MSP432P4xx:

  • MCU – 32-bit ARM Cortex-M4F up to 48 MHz with FPU and DSP. Delivers 3.4 Coremark/MHz
  • Memory – Up to 64 KB RAM;  Selectable RAM retention
  • Storage – Up to 256 KB Flash; dual bank for simultaneous reading and writing
  • Security – 256-bit AES encryption, JTAG access lock, 4 IP Protection regions
  • EnergyTrace Technology
    • Real-time power measurement and debugging
    • Generate application energy profiles including current and CPU state
  • Ultra-Low Power Consumption:
    • 95 uA/MHz active mode
    • 850 nA LPM3 (With RTC)
    • Wake-Up From Standby Mode in < 10uS
  • ADC – 24-ch 14-bit (13.2 ENOB) differential ADC; up to 1 MSPS; 375 uA at full speed
  • Voltage – 1.62 to 3.7 V operation

There are currently 6 devices available with 32 to 64KB RAM, 128 to 256KB flash and various I/O options and packages.

MSP432 Family Table (Click to Enlarge)

MSP432 Family Table (Click to Enlarge)

To allow customers to quickly evaluate the new MSP432 MCU, Texas Instruments also launched MSP432 LaunchPad Evaluation Kit based on MSP432P401R with 256KB flash and 64KB RAM.

MSP432 Launchpad Board

MSP432 Launchpad Board

Key features listed for the kit:

  • Low-power ARM Cortex-M4F MSP432P401R
  • 40-pin LaunchPad standard that leverages the BoosterPack ecosystem
  • XDS110-ET, an open-source onboard debugger featuring EnergyTrace+ technology and application UART
  • Two buttons and two LEDs for user interaction
  • Backchannel UART through USB to PC

The kit includes the board, a micro USB cable, and a quick start guide.

Software examples and hardware design files have been released for the board. Development can be performed with MSPWare Software Development Package either from the desktop or within a web browser. MSP432 MCUs are also said to support real-time operating system (RTOS) such as TI-RTOS, FreeRTOS and Micrium uC/OS.

MSP432P401RIPZ MCU is already sampling, while other upcoming devices will be available later, and pricing starts at $2.15 US in 1K units.  MSP-EXP432P401R LaunchPad kit will sell for just $12.99, and the company can also provide MSP-TS432PZ100 target board for $89. You can find more details, including documentation, tools, and software for the boards, on Texas Instruments MSP432 product page.


Embedded Systems Conference 2015 Schedule – May 6-7, 2015

March 11th, 2015 No comments

The Embedded Systems Conference took the name “Design West” for a couple of years, but this year, there’s no mention of Design West, and the Embedded System Conference 2015 will take place in Boston, MA, US on May 6-7, 2015. The 2-day event will have a demo hall, and well as sessions divided into 8 tracks:Embedded_Systems_Conference_2015

  • Connected Devices and the IoT
  • Embedded Software Design
  • Hardware: Design, I/O and Interfacing
  • Prototyping
  • Embedded Systems Design
  • Software: Design, Languages, & Quality
  • Fantastical Theater
  • Teardowns

The full schedule has now been posted, and I’ll build a virtual schedule with some of the sessions provided.

Wednesday May 6, 2015

  • 8:00 – 8:45 – Understanding Google/Nest Thread by Michael Anderson, Chief Scientist, The PTR Group, Inc.

The IoT will live or die based on its connectivity. In examining existing wireless protocols, Google/Nest found most of them lacking. In order to address the needs for low-power wireless communications in the home, Thread was created. Thread is an implementation of an IEEE 802.15.4 mesh-based network that provides IP connectivity using existing radio silicon. Come to this session to get the latest information on Thread, its capabilities and characteristics and how you can use Thread in your next IoT device.

  • 9:00 – 9:45 – Best Practices for Designing Hardware APIs by Matt Haines, Communications Manager, Electric Imp

We are rapidly heading toward a world in which most of the objects we interact with on a daily basis will be connected to the Internet. What does this world look like, and how do we design Connected Things that will live in this world? This presentation will address the issue of API design; a topic often talked about in web development but just as often overlooked in conversations about the IoT. What should we be thinking about when we’re designing an API for a connected product? Why do our connected products even need APIs? What strategies and best practices can we apply from web API design?

  • 10:00 – 10:45 – Choosing Between Multicore CPU, GPU & FPGA Technology for Vision Applications by Julianne Kline, Systems Engineer, National Instruments

FPGA, GPU, and multi-core CPU processing will be compared and contrasted. Examples will be highlighted on when customers may want to use one technology over the other. A heavier focus will be placed on FPGA technology. This presentation will discuss recommendations for when to integrate FPGA technology into vision applications, such as for image pre-processing, high-speed control, or processing parallelism. Types of algorithms well-suited to FPGA technology will also be discussed, and resources for accessing existing FPGA IP will be provided.

  • 11:00 – 11:45 – Mob Programming for Embedded Systems Software by Nancy Van Schooenderwoert, President, Lean-Agile Partners, Inc.

Mob Programming is a practice where a whole software team works together, at one computer, one line of code at a time, outperforming their previous work significantly in both quality and volume. Impossible? Maybe except for the teams actually doing it now. One team in California began in 2011, and it’s been spreading since. This session tells the story of the first embedded systems teams to use MobProgramming.This session is a double experience report plus a demo: Speaker Simon Clements-Hawes gives his observations as an embedded systems team member starting to use MobProgramming, and Nancy describes how to get a team started in MobProgramming. Thru video clips, the team’s coding of a LeanKit interrogator in C# will be shown using Mob Programming of course!

  • 14:00 – 14:45 – Is There an Arduino Debugger in the House? by Guido Bonelli, President, Innovative Electronic Solutions LLC

Arduino development and the hardware debugging landscape OR THE LACK THEREOF! In this session you will delve into the Arduino developer’s tool chain from a hardware perspective. What hardware debugging solutions are currently available and how Dr.Duino the Arduino hardware debugger can reduce your debugging pain. We shall discuss the blissful highs of easy firmware development on a standard platform while then exploring the lowliest of lows when debugging the hardware/firmware interactions.

  • 15:00 – 15:45 – ARMv8 Kernel Internals by Arun Thomas, Senior Principal Engineer, BAE Systems

This talk is meant to be a quick start guide for embedded developers who are new to the ARMv8 architecture. I will discuss how operating systems interface with the 64-bit ARMv8 architecture and will cover the ARMv8 specific kernel internals of Linux and FreeBSD. I will discuss how booting, memory management, exceptions, and interrupts work using examples drawn from the kernel source.

Thursday May 7, 2015

  • 08:00 – 08:45 – Open Source Software: Tips for Avoiding Licensing Surprises by Jason Kunze, Attorney, Nixon Peabody LLP

A practical, quick hitting summary of the key considerations that anyone developing, purchasing or licensing software should consider. After a brief discussion of legal basics, practical concerns relating to open source software will be explained through the lens of actual cases in this developing area of law. The participant will gain a general understanding of:

  1. The intellectual property rights that may attach to software
  2. The competing ideologies behind open source software and how this drives licensing terms
  3. Some of the leading open source software licenses and their relative level of restrictions
  4. Pitfalls to recognize and avoid in relation to open source software
  • 09:00 – 09:45 – How NOT To Do Embedded Development! Practical Lessons From Real Projects That Almost Went Off A Cliff by Dave Nadler, President, Nadler & Associates

In an interactive (Socratic) discussion, we’ll review some real-world projects in trouble and how they were sorted. Projects include an automated toll-collection system, an aircraft collision-avoidance system (cool movie!), a manufacturing instrumentation product, and an integrated flight computer. We’ll cover a variety of coding and testing techniques used to get these projects on track.

  • 10:00 – 10:45 – Designing for the IoT with Lower Power and Way More Intelligence by Dana Myers, Channel Marketing Manager, Wireless Connectivity Solutions, Texas Instruments

As the Internet of Things (IoT) has changed the way we live, do business and make decisions, it has also impacted engineers’ designs. This presentation will address the benefits and challenges of designing for the IoT in regards to low-power, integration and performance. This will let engineers weigh the tradeoffs of each connectivity architecture and provide a quick pathway to begin designing their products for the fast-growing IoT.

  • 11:00 – 11:45 – Squeezing the Most Out of Battery Life using ARM Cortex-M Processors by Jacob Beningo, Principal Consultant, Beningo Engineering

The proliferation of mobile devices has led to the need of squeezing every last micro-amp-hour out of batteries. Minimizing the energy profile of a micro-controller is not always straight forward. A combination of sleep modes, peripheral control and other techniques can be used to maximize battery life. In this session, strategies for optimizing micro-controller energy profiles will be examined which will extend battery life while maintaining the integrity of the system. The techniques will be demonstrated on an ARM Cortex-M processor.

  • 14:00 – 14:45 – Network Insecurity: Simple Hacks of ARM Cortex-M Devices by Jonny Doin, CEO, Grid Vortex Systems

The IoT is a very new domain of a very old activity: Embedded Systems Design, with a twist: connection to the most toxic of environments, the Internet. One of the main concerns of the IoT is how to cope with the massive amount of unanticipated network traffic and problems. Malformed packets, corrupted messages, specifically targeted attacks, buffer overflow exploits, spoofing, stuxnet emulation messages, denial of service, fake OTAP, and other exploits and attacks can transform your IoT devices into something you did not design for. This situation demands several good practices and programming concerns regarding network safety and security into even the smallest of things. Buffer integrity checks, full parameters domain verification, message authentication, data path integrity verification, and crypto security are among the needed elements of a safe and secure IoT system, and can be implemented on nearly any Embedded System. Examples of simple attacks on ARM Cortex-M devices will be presented, including RET2ZP and buffer attacks.

  • 15:00 – 15:45 – RTOS Smackdown: 7 RTOSes in 45 Minutes! by 7 speakers

There are a lot of Real Time Operating System (RTOS) options out there. Which one is right for your embedded system? Do you even need an RTOS at all? In this feisty presentation, one industry expert will argue that an RTOS is superfluous to requirements, while another will contend that an RTOS is an invaluable, “must-have” asset, even if your embedded application performs only a handful of tasks. After the dust dies down, proponents of seven of the leanest, meanest, coolest, hottest contenders in the RTOS multi-universe will take it in turns to explain why their RTOS is the bestest of the best.

If you’d like to attend the conference you can register online. Access to the demo hall is free, unless you come without registration, in which case you’d have to pay $75 for entry. A pass is required for the full conference and access to sessions with the following pricing:

  • SUPER EARLY BIRD (Ends January 30) – $799
  • EARLY BIRD (Ends March 6) – $949
  • ADVANCED (Ends May 1) – $1,149
  • REGULAR/ONSITE – $1,299

Seven vendors’ sponsored sessions can be attended with a free “demo hall” registration.